U.S. patent application number 13/219865 was filed with the patent office on 2011-12-22 for reorientable electrical receptacle.
This patent application is currently assigned to 360 Electrical, LLC. Invention is credited to Kimberly R. Gerard.
Application Number | 20110312194 13/219865 |
Document ID | / |
Family ID | 40265189 |
Filed Date | 2011-12-22 |
United States Patent
Application |
20110312194 |
Kind Code |
A1 |
Gerard; Kimberly R. |
December 22, 2011 |
Reorientable Electrical Receptacle
Abstract
There is provided systems and methods for a reorientable
electrical outlet. In one embodiment, a system includes a housing
configured to be coupled to an electrical power source, the housing
having a first rotation stop, and an electrical plug receptacle,
mountable within the housing, the insert having a second rotation
stop, the first and second rotation stops configured to cooperate
with each other to limit rotation of the insert within the aperture
at a number of degrees, wherein the plug receptacle is configured
to receive an electrical plug.
Inventors: |
Gerard; Kimberly R.;
(Murray, UT) |
Assignee: |
360 Electrical, LLC
Salt Lake City
UT
|
Family ID: |
40265189 |
Appl. No.: |
13/219865 |
Filed: |
August 29, 2011 |
Related U.S. Patent Documents
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Application
Number |
Filing Date |
Patent Number |
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12835722 |
Jul 13, 2010 |
8007283 |
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13219865 |
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|
11778948 |
Jul 17, 2007 |
7753682 |
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12835722 |
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Current U.S.
Class: |
439/13 |
Current CPC
Class: |
H01R 24/78 20130101;
H01R 2103/00 20130101; H01R 35/02 20130101; H01R 13/652 20130101;
Y10T 29/49174 20150115; Y10T 29/49826 20150115; Y10T 29/49208
20150115 |
Class at
Publication: |
439/13 |
International
Class: |
H01R 39/00 20060101
H01R039/00 |
Claims
1. An electrical outlet comprising: a housing configured to be
coupled to an electrical power source, the housing having a first
rotation stop; and an electrical plug receptacle, mountable within
the housing, the insert having a second rotation stop, the first
and second rotation stops configured to cooperate with each other
to limit rotation of the insert within the aperture at a number of
degrees, wherein the plug receptacle is configured to receive an
electrical plug.
2. The electrical outlet of claim 1, wherein the housing comprises
a stop ring, wherein the stop ring comprises the first rotation
stop.
3. The electrical outlet of claim 2, wherein the first rotation
stop extends orthogonally from the stop ring.
4. The electrical outlet of claim 2, wherein the second rotation
stop is configured to rotated in a plane generally parallel to an
upper surface of the stop ring.
5. The electrical outlet of claim 2, comprising an electrical wire
coupled between a power supply portion of the electrical outlet and
the electrical plug receptacle.
6. The electrical outlet of claim 5, wherein the electrical wire is
disposed though the stop ring.
7. The electrical outlet of claim 1, wherein the electrical plug
receptacle comprises one or more annular channels configured to
receive one or more wires.
8. The electrical outlet of claim 7, wherein the one or more wires
are configured to be received by the one or more channels as the
electrical plug receptacle is rotated within the housing.
9. The electrical outlet of claim 1, comprising a third rotation
stop within the housing, wherein the third rotation stop is
approximately 180 degrees rotated from the second rotation stop
within an opening within the housing.
10. A method of manufacturing a rotatable electrical outlet, the
method comprising: placing a generally circular receptacle within
generally circular aperture in an electrical housing, such that a
first stopping mechanism on the receptacle cooperates with a second
stopping mechanism in the aperture to limit rotation of the
receptacle to a rotational range; connecting a first wire between
the receptacle and the aperture; and connecting a second wire
between the receptacle and the aperture.
11. The method of claim 10, wherein a limit of extension of the
first wire corresponds to the rotational range.
12. The method of claim 10, wherein connecting the first wire
comprises connecting the first wire to a post within the electrical
housing.
13. The method of claim 10, comprising placing a stop ring within
the aperture wherein the stop ring includes the first stop
mechanism.
14. The method of claim 13, comprising fastening a plate to the
housing.
15. A reorientable electrical outlet comprising: an electrical
housing having an aperture; a circular electrical receptacle
disposed within the aperture and configured to rotate within the
aperture; and a wire coupled between the electrical housing and the
circular electrical housing such that as the circular electrical
receptacle rotates away from a vertical position, the wire becomes
progressively tauter over a range of rotational degrees.
16. The reorientable electrical outlet of claim 15, wherein the
wire is configured to retard rotation of the circular electrical
receptacle when the wire reaches a limit of rotation.
17. The reorientable electrical outlet of claim 15, comprising a
stop tab configured to stop rotation of the circular electrical
receptacle before the wire reaches a limit of rotation.
18. The reorientable electrical outlet of claim 15, wherein the
wire is an electrical supply wire for the circular electrical
receptacle.
19. The reorientable electrical outlet of claim 15, comprising a
grounding wire, a live wire, and a neutral wire.
20. The reorientable electrical outlet of claim 19, wherein the
circular electrical receptacle comprises three annular channels
configured to receive the grounding wire, the live wire, and the
neutral wire.
Description
CROSS-REFERENCE TO RELATED APPLICATIONS
[0001] This application is a continuation of U.S. application Ser.
No. 12/835,722 filed Jul. 13, 2010 and issuing as U.S. Pat. No.
8,007,283 on Aug. 30, 2011, which is a continuation of U.S.
application Ser. No. 11/778,948 filed Jul. 17, 2007, now U.S. Pat.
No. 7,753,682 issued Jul. 13, 2010.
TECHNICAL FIELD
[0002] This disclosure relates to electrical outlets and plugs.
BACKGROUND
[0003] Electrical outlets and plugs have been a staple of modern
life for many years. Virtually all consumer and business
appliances, such as computers, televisions, refrigerators, washers,
dryers, and so forth, get their power through electrical outlets.
Most modern plugs and outlets employ a three prong design with one
prong for live power, one prong for neutral, and one prong for
grounding. Similar plugs and outlets have only two prongs omitting
the grounding prong. Electrical outlets and prongs are employed to
carry many different levels of power, such as 110 volts, 220 volts,
and 480 volts.
SUMMARY
[0004] There is provided systems and methods for a reorientable
electrical outlet. In one embodiment, a system includes a housing
configured to be coupled to an electrical power source, the housing
having a first rotation stop, and an electrical plug receptacle,
mountable within the housing, the insert having a second rotation
stop, the first and second rotation stops configured to cooperate
with each other to limit rotation of the insert within the aperture
at a number of degrees, wherein the plug receptacle is configured
to receive an electrical plug.
DESCRIPTION OF DRAWINGS
[0005] FIG. 1 shows a perspective view of an exemplary reorientable
electrical outlet.
[0006] FIG. 2 shows an exploded view of an exemplary reorientable
electrical outlet.
[0007] FIG. 3 illustrates the exemplary reorientable electrical
outlet of FIG. 1 rotated counterclockwise.
[0008] FIG. 4 illustrates the exemplary reorientable electrical
outlet of FIG. 1 rotated clockwise.
[0009] FIG. 5 shows a top view of another embodiment of an
exemplary reorientable electrical outlet.
[0010] FIG. 6 shows a side view of the exemplary reorientable
female receptacle of FIG. 5.
DETAILED DESCRIPTION
[0011] One or more the embodiments set forth below is directed to
reorientable electrical outlets. Reorientable electrical differ
from traditional, fixed, electrical outlets, by allowing a user to
rotate the female receptacle(s). Such rotatable female receptacles
may allow plug-in items with unusual shapes (e.g., plug-in
transformers, "wall-warts," cell phone chargers, night lights,
plug-in room fresheners) to be plugged into a receptacle and then
be rotated to prevent the device from blocking access to another
receptacle.
[0012] FIG. 1 shows a perspective view of an exemplary reorientable
electrical outlet 100. The outlet 100 includes a plate 102 having a
faceplate portion 104 and a receptacle housing 106. The faceplate
104 and receptacle housing 106 meet to form an enclosed space
within the outlet 100. The plate 102 and faceplate 104 include two
holes: a hole 108A and a hole 108B. In some embodiments, the
dimensions of the outlet 100 may be similar to the dimensions of a
traditional electrical outlet. For example, the outlet 100 may be
sized as to allow the outlet 100 to be used as a replacement for a
traditional electrical outlet. A pair of countersunk screw holes
110 receive screws for mounting the reorientable electrical outlet
100 in a desired surface, such as an electrical box or wall.
[0013] In some embodiments, portions of the reorientable electrical
outlet 100 may be formed of nonconductive material such as plastic
or polyvinyl chloride (PVC). The nonconductive portions may also be
formed of nylon or any other suitable supporting material. In some
embodiments, portions of the outlet 100 may be manufactured using
resins containing high impact amorphous polycarbonate (PC) and
acrylonitrile-butadiene-styrene (ABS) terpolymer blends, such as
Cycoloy.RTM. CY6120 from GE Plastics. By varying the ratio of PC to
ABS in the resin, the outlet 100 may be tailored for residential or
industrial use. Further, the overall cost of the outlet 100 may be
reduced by employing regrind or powdering techniques. Preferably,
no more than 15% regrind is employed. In some embodiments, portions
of the reorientable electrical outlet 100 may be formed of
conductive material, such as steel, aluminum, or any other suitable
conductive supporting material. For example, the receptacle housing
106, the plate 102, the faceplate 104, and other portions of the
outlet 100 may be made of conductive metal, and those portions may
be connected to an electrical ground.
[0014] The holes 108A and 108B accommodate a stop ring 120A and a
stop ring 120B (not shown in FIG. 1). The stop ring 120A is shown
in the cutaway of FIG. 1 or in its entirety in FIG. 2. The stop
rings 120A-120B include an upper surface 122 and one or more fixed
stop tabs, such as fixed stop tab 124, that are located on the
upper surface 122. In one embodiment, the stop tab 124 extends
vertically or orthogonally from the upper surface 122 of the stop
ring 120.
[0015] A female electrical receptacle 112A and a female electrical
receptacle 112B fit within the respective holes 108A and 108B. The
female electrical receptacles 112A and 112B include an outer
surface 116A and an outer surface 116B, respectively. In some
embodiments, the female electrical receptacles 112A and 112B may
extend through the holes 108A and 108B such that the outer surfaces
116A and 116B may be substantially on the same plane as the
faceplate 104. In some embodiments, the outer surfaces 116A and
116B may slightly extend beyond the plane of the faceplate 104.
[0016] Each of the female electrical receptacles 112A and 112B may
also include one or more reorientable stop tabs 202 (not shown in
FIG. 1, but described in further detail in the description of the
illustration of FIG. 2). The female electrical receptacle 112A is
placed within the stop ring 120A such that the reorientable stop
tab may travel along the upper surface 122 when the female
receptacle 112A is reoriented. The amount by which the female
electrical receptacle 112A can be reoriented is limited by contact
between the reorientable stop tab and the fixed stop tab 124. For
example, when a user rotates the female electrical receptacle 112A,
the reorientable stop tab travels across the upper surface 122. The
reorientable stop tab travels along the stop ring 120A until it
contacts the fixed stop tab 124, which limits how far the female
electrical receptacle may be rotated within the hole 108.
[0017] The outlet 100 also includes a conductor plate 126. The
conductor plate 126 includes a number of conductors, such as a
conductor 128, a conductor 130, and a conductor 132. The conductor
plate 126 is electrically connected to an electrical supply (e.g.,
wires in an electrical outlet box) such that the electrical
conductors 128-132 may be electrically connected to the electrical
supply. In some embodiments, the conductor plate 126 may be a
printed circuit board (PCB), and the conductors 128-132 may be
formed as conductive traces on the conductor plate 126. In some
embodiments, the conductors may be PCB traces, bus bars, wires, or
other form of electrical conductor.
[0018] The electrical conductor 128 is electrically connected to a
flexible conductor 134 (e.g., a wire). Similarly, the electrical
conductors 130 and 132 are electrically connected to flexible
conductors 136 and 138. The flexible conductors 134-138 are coupled
between the electrical conductors 128-132 and plug contacts
140-144. In particular, the flexible conductor 134 may connect
electrical conductor 128 and the neutral electrical contact 140,
the flexible conductor 136 may connect the electrical conductor 130
and the live electrical contact 142, and the flexible conductor 138
may connect between electrical conductor 132 and the ground
electrical contact 144. In some embodiments, the flexible
conductors 134-138 are wires disposed through the stop ring 120
into the female receptacle 112.
[0019] The plug contacts 140-144 are sized and arranged within the
female electrical receptacle 112A in a manner that allows an
electrical plug to be inserted into them. When the electrical plug
is inserted, the plug connects to the plug contacts 140-144. The
female electrical receptacle 112B may also include a neutral plug
contact 146, a live plug contact 148, and a ground plug contact 150
that are substantially identical to the electrical contacts
140-144. In some embodiments, the outlet 100 may also be made of
conductive material that is connected to ground, and the ground
electrical contacts 144 and 150 are electrically connected to the
outlet 100 itself (e.g., rather than being grounded via the
flexible conductor 138).
[0020] In an alternate embodiment of the reorientable electrical
outlet 100, the female electrical receptacles 112A and 112B may be
two prong receptacles. This type of a two-pronged receptacle does
not employ the ground electrical components (e.g., the ground
electrical contact 150, the flexible conductor 138, because the
electrical conductor 132) as the ground plug contact 144 is
absent.
[0021] FIG. 2 shows an exploded view of the exemplary reorientable
electrical outlet 100. In this view, it can be seen that the female
electrical receptacles 112A and 112B each include the reorientable
stop tabs 202, which were mentioned above. In some embodiments, the
female electrical receptacles 112A and 112B are placed such that a
bottom portion of the receptacles 112A and 112B extends at least
partially through the openings of the stop rings 120A and 120B
until the reorientable stop tabs 124 contact the top surfaces 122
of the stop rings 120A and 120B.
[0022] The female electrical receptacles 112A and 112B are capable
of being rotatably reoriented within the stop rings 122. As the
female electrical receptacles 112A and 112B are rotated, the
reorientable stop tabs 202 travels circumferentially across the top
surfaces 122 until the reorientable stop tabs 202 come into contact
with the fixed stop tabs 124. Contact between the reorientable stop
tabs 202 and the fixed stop tabs 124 limits the rotation of the
female electrical receptacles 112A and 112B.
[0023] In the illustrated example, the reorientable female
receptacles 112A and 112B are configured such that they may be
rotated approximately 1/4 turn clockwise or counterclockwise from
the depicted initial position. In some embodiments, the fixed stop
tabs 124 and the reorientable stop tabs 202 may be configured to
limit the rotation of the female receptacles 112A and 112B to any
number of degrees, turns, or fractions thereof. For example, a
single stop tab 124 and a single reorientable tab 202 may allow for
nearly a full total turn. In another example, a reorientable stop
tab 202 may be located between two fixed stop tabs 124 that are
located at positions 90 degrees apart allowing the female
electrical receptacle 112A to be rotated approximately 1/4 turn
total (e.g., approximately 1/8 turn either way from the illustrated
initial position). In some embodiments, the fixed stop tabs 124 and
the reorientable stop tabs 202 may be configured to limit the
rotation of the female electrical receptacle 112A in an
asymmetrical manner. For example, the outlet may be constructed to
allow the female electrical receptacle 112A to rotate 1/2 turn in
one direction from an initial position, but only 1/4 turn from the
initial position in the other direction.
[0024] Although illustrated in FIG. 1 as a two-receptacle the
reorientable electrical outlet 100 is adaptable to a variety of
models and configurations and may be devised to include many other
types of electrical receptacles and adapters. For example, the
outlet 100 may be embodied in an adapter device to convert a fixed
socket to reorientable facility. It should also be understood that,
the number, form, and structure of the illustrated female
electrical receptacles are merely exemplary. For example, in
various embodiments, female electrical receptacles 112A and 112B
may be in typical residential receptacles, both grounded and
non-grounded, in power strips, in safety outlets (such as GFCI or
arc fault outlets), in 220V receptacles, in 480V receptacles, or
other receptacles including two, three, four, or more prong
designs. These devices allow for prongs of a variety of male plugs
to be inserted into the female electrical receptacles and rotated
to a desired position within the receptacles' range or rotation.
Advantageously, this rotation may enable male plugs to be inserted
in non-interfering positions with regard to other male plugs or
other types of restrictions.
[0025] FIG. 3 illustrates the exemplary reorientable electrical
outlet 100 of FIG. 1 rotated counterclockwise. The female
electrical receptacle 112A has been rotated approximately 1/4 turn
to the left from the initial position depicted in FIG. 1. As the
female electrical receptacle 112A is reoriented, the reorientable
stop tab 202 travels circumferentially along the top surface 122
until the reorientable stop tab 202 contacts the fixed stop tab
124. Contact between the reorientable stop tab 202 and the fixed
stop tab 124 may limit the counterclockwise rotation of the female
electrical receptacle 112A.
[0026] FIG. 4 illustrates the exemplary reorientable electrical
outlet 100 of FIG. 1 rotated clockwise. The female electrical
receptacle 112A has been rotated approximately 1/4 turn to the
right from the initial position depicted in FIG. 1. As the female
electrical receptacle 112A is reoriented, the reorientable stop tab
202 travels circumferentially along the top surface 122 until the
reorientable stop tab 202 encounters the fixed stop tab 124.
Contact between the reorientable stop tab 202 and the fixed stop
tab 124 limits the rotation of the clockwise rotation of the female
electrical receptacle 112A.
[0027] In some embodiments, the limits of the range of motion for
the female electrical receptacle 112A may be extended beyond one
turn through the use of multiple concentric stop rings. For
example, one or more intermediate stop rings may be concentrically
disposed between the female electrical receptacle 112A and the stop
ring 120A. In this way, up to approximately one full turn may be
permitted between the female electrical receptacle 112A and an
intermediate stop ring, and up to approximately one full turn may
be permitted between the intermediate stop ring and the stop ring
120A, thus allowing up to approximately two total rotations in
either direction. In some embodiments, other configurations of stop
rings (e.g., the stop ring 120A, or the concentric stop rings), the
reorientable stop tabs 202, and/or the fixed stop tabs 124 may be
implemented to create various symmetrical and asymmetrical limits
of rotation for a female electrical receptacle, such as the
receptacle 112A.
[0028] FIG. 5 shows a top view of another type of reorientable
electrical outlet, which is labeled with a reference numeral 500.
The outlet 500 includes a reorientable female receptacle 502A and a
reorientable female receptacle 502B. The reorientable female
receptacle 502A includes a neutral electrical contact 504A, a live
electrical contact 506A, and a ground electrical contact 508A. The
neutral electrical contact 504A is connected to a flexible
conductor 510A. The live electrical contact 506A is connected to a
flexible conductor 512A. The ground electrical contact 508A is
connected to a flexible conductor 514A.
[0029] The reorientable female receptacle 502B includes a neutral
electrical contact 504B, a live electrical contact 506B, and a
ground electrical contact 508B. The neutral electrical contact 504B
is connected to a flexible conductor 510B. The live electrical
contact 506B is connected to a flexible conductor 512B. The ground
electrical contact 508B is connected to a flexible conductor 514B.
In some embodiments, the flexible conductors 510A-514A and
510B-514B are wires.
[0030] The outlet 500 also includes a neutral post 516A, a neutral
post 516B, a live post 518A, a live post 518B, a ground post 520A,
and a ground post 520B. The neutral posts 516A and 516B are
electrically connected to the neutral leg of an electrical supply.
The live posts 518A and 518B are electrically connected to the live
leg of an electrical supply. The ground posts 520A and 520B are
electrically connected to an electrical ground. The neutral posts
516A and 516B are electrically connected to the neutral electrical
contacts 504A and 504B by the flexible conductors 510A and 510B,
respectively. The live posts 518A and 518B are electrically
connected to the live electrical contacts 506A and 506B by the
flexible conductors 512A and 512B, respectively. The ground posts
520A and 520B are electrically connected to the ground electrical
contacts 508A and 508B by the flexible conductors 514A and 514B,
respectively.
[0031] As the reorientable female receptacles 502 are rotated
within the outlet 500, the conductors 510-514 are progressively
drawn tauter around the body of the receptacle 502. Eventually, the
conductors 510-514 may reach their limit of extension and rotation
of the receptacle 502 stop. For example, the female electrical
receptacle 502A has been rotated counterclockwise approximately 1/8
turn; and, as shown, the conductors 510A-514A are relatively lax.
On the other hand, the female electrical receptacle 502B has been
rotated clockwise approximately 1/4 turn extending the conductors
510B-514B to their limit of extension. The degrees of rotation in
the clockwise direction may be different than the number of degrees
rotation in the counter-clockwise direction.
[0032] FIG. 6 is a side view of the exemplary reorientable female
receptacle 502A. As shown, the reorientable female receptacle 502A
may include an annular groove 602, an annular groove 604, and an
annular groove 606. The grooves 602-606 may hold the conductors
510-514 and may provide locations where electrical contact may be
made between the flexible conductors 510A-514A and the electrical
contacts 504A-508A. For example, the flexible conductors 510-514
can be connected to contacts within the annular grooves 602-606.
For example, one end of the flexible conductor 510A is connected to
a contact within the annular groove 602 while the other end of the
conductor 510A is connected to the electrical post 516A. Similarly,
the flexible conductors 512A and 514A may attach to points on the
electrical posts 518A and 520A respectively (not shown). As such,
when the receptacle 502A is reoriented, the flexible conductors
510A-514A are drawn taut and captured within the annular grooves
516-520.
[0033] In the illustrated embodiment, the female receptacle 502A
also includes a pair of reorientable stop tabs 608 and a stop ring
610. As the receptacle 502A is reoriented, the reorientable stop
tabs may travel across the outer surface 612 of the stop ring 610.
The receptacle can rotate until one the reorientable stop tabs 608
encounters a fixed stop tab (not shown) that is attached to the
stop ring. The reorientable stop tabs 608 and the fixed stop tabs
may be configured to limit the reorientation of the receptacle
502A, as described above, to prevent over extension of conductors
510-514. In other embodiments, the stop tabs 608 and the stop ring
610 may be omitted. For example, the flexible conductors 510-514
may be employed to limit rotation of the female receptacles 502. In
other words, the rotation of the receptacle 502 may stop when one
or more of the conductors become fully extended and stops rotation
of the receptacle 502.
[0034] Although the depicted embodiments of the reorientable
electrical outlet 100 and the reorientable electrical outlet 500
include two grounded female electrical receptacles, the outlets 100
and 500 are usable for a variety of female electrical receptacles
including those that employ a single receptacle, or more than two
receptacles. It should also be recognized that the female
electrical receptacles 112A, 112B, 502A, and 502B may be replaced
or supplemented by any type of similar female socket that allows
proper insertion and contact with a mating male-type conduct of
prongs of a male plug. Moreover, outlets 100 and 500 are not
limited to use with 110V-220V AC-type or DC-type appliances.
[0035] In some embodiments, the concepts of the reorientable
electrical outlet 100 are applied to male electrical plugs. For
example, a wall transformer may include a reorientable male plug
that may allow the transformer to be rotated while plugged into a
traditional, fixed outlet. In some embodiments, several
reorientable electrical outlets may be arranged into a power strip
configuration. In another embodiment, several reorientable
electrical outlets are arranged as an outlet expander. For example,
three, four, five, six, or other number of reorientable electrical
outlets could be arranged in a device that plugs into a single
outlet or a traditional two-receptacle wall outlet. In another
embodiment, the reorientable electrical outlets 100 and 500 may be
located at one or both ends of a power cord. For example, an
extension cord may have one or more reorientable electrical outlets
(or male plugs) at one or both ends, to allow odd-sized devices to
be plugged in, or perhaps to reduce tangling.
[0036] Although the embodiments here and have been described in
detail, it will be apparent to those skilled in the art that many
embodiments taking a variety of specific forms and reflecting
changes, substitutions, and alterations can be made without
departing from the spirit and scope of the invention. The described
embodiments illustrate the scope of the claims but do not restrict
the scope of the claims.
* * * * *